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Example 1 with Provider

use of org.apache.derby.iapi.sql.depend.Provider in project derby by apache.

the class BasicDependencyManager method copyDependencies.

/**
 * @inheritDoc
 */
public void copyDependencies(Dependent copy_From, Dependent copyTo, boolean persistentOnly, ContextManager cm, TransactionController tc) throws StandardException {
    List list = getProviders(copy_From);
    Iterator depsIter = list.iterator();
    while (depsIter.hasNext()) {
        Provider provider = (Provider) depsIter.next();
        if (!persistentOnly || provider.isPersistent()) {
            this.addDependency(copyTo, provider, cm, tc);
        }
    }
}
Also used : ListIterator(java.util.ListIterator) Iterator(java.util.Iterator) ArrayList(java.util.ArrayList) List(java.util.List) ProviderList(org.apache.derby.iapi.sql.depend.ProviderList) Provider(org.apache.derby.iapi.sql.depend.Provider)

Example 2 with Provider

use of org.apache.derby.iapi.sql.depend.Provider in project derby by apache.

the class BasicDependencyManager method getPersistentProviderInfos.

/**
 * @see DependencyManager#getPersistentProviderInfos
 *
 * @exception StandardException		Thrown on error
 */
public ProviderInfo[] getPersistentProviderInfos(Dependent dependent) throws StandardException {
    List<Provider> provs = getProviders(dependent);
    if (provs.isEmpty()) {
        return EMPTY_PROVIDER_INFO;
    }
    List<ProviderInfo> pih = new ArrayList<ProviderInfo>();
    for (Provider p : provs) {
        if (p.isPersistent()) {
            pih.add(new BasicProviderInfo(p.getObjectID(), p.getDependableFinder(), p.getObjectName()));
        }
    }
    return (ProviderInfo[]) pih.toArray(EMPTY_PROVIDER_INFO);
}
Also used : ProviderInfo(org.apache.derby.iapi.sql.depend.ProviderInfo) ArrayList(java.util.ArrayList) Provider(org.apache.derby.iapi.sql.depend.Provider)

Example 3 with Provider

use of org.apache.derby.iapi.sql.depend.Provider in project derby by apache.

the class CreateConstraintConstantAction method executeConstantAction.

// INTERFACE METHODS
/**
 *	This is the guts of the Execution-time logic for CREATE CONSTRAINT.
 *  <P>
 *  A constraint is represented as:
 *  <UL>
 *  <LI> ConstraintDescriptor.
 *  </UL>
 *  If a backing index is required then the index will
 *  be created through an CreateIndexConstantAction setup
 *  by the compiler.
 *  <BR>
 *  Dependencies are created as:
 *  <UL>
 *  <LI> ConstraintDescriptor depends on all the providers collected
 *  at compile time and passed into the constructor.
 *  <LI> For a FOREIGN KEY constraint ConstraintDescriptor depends
 *  on the ConstraintDescriptor for the referenced constraints
 *  and the privileges required to create the constraint.
 *  </UL>
 *
 *  @see ConstraintDescriptor
 *  @see CreateIndexConstantAction
 *	@see ConstantAction#executeConstantAction
 *
 * @exception StandardException		Thrown on failure
 */
public void executeConstantAction(Activation activation) throws StandardException {
    ConglomerateDescriptor conglomDesc = null;
    ConglomerateDescriptor[] conglomDescs = null;
    ConstraintDescriptor conDesc = null;
    TableDescriptor td = null;
    UUID indexId = null;
    String uniqueName;
    String backingIndexName;
    /* RESOLVE - blow off not null constraints for now (and probably for ever) */
    if (constraintType == DataDictionary.NOTNULL_CONSTRAINT) {
        return;
    }
    LanguageConnectionContext lcc = activation.getLanguageConnectionContext();
    DataDictionary dd = lcc.getDataDictionary();
    DependencyManager dm = dd.getDependencyManager();
    TransactionController tc = lcc.getTransactionExecute();
    cf = lcc.getLanguageConnectionFactory().getClassFactory();
    /*
		** Inform the data dictionary that we are about to write to it.
		** There are several calls to data dictionary "get" methods here
		** that might be done in "read" mode in the data dictionary, but
		** it seemed safer to do this whole operation in "write" mode.
		**
		** We tell the data dictionary we're done writing at the end of
		** the transaction.
		*/
    dd.startWriting(lcc);
    /* Table gets locked in AlterTableConstantAction */
    /*
		** If the schema descriptor is null, then
		** we must have just read ourselves in.  
		** So we will get the corresponding schema
		** descriptor from the data dictionary.
		*/
    SchemaDescriptor sd = dd.getSchemaDescriptor(schemaName, tc, true);
    /* Try to get the TableDescriptor from
		 * the Activation. We will go to the
		 * DD if not there. (It should always be
		 * there except when in a target.)
		 */
    td = activation.getDDLTableDescriptor();
    if (td == null) {
        /* tableId will be non-null if adding a
			 * constraint to an existing table.
			 */
        if (tableId != null) {
            td = dd.getTableDescriptor(tableId);
        } else {
            td = dd.getTableDescriptor(tableName, sd, tc);
        }
        if (td == null) {
            throw StandardException.newException(SQLState.LANG_TABLE_NOT_FOUND_DURING_EXECUTION, tableName);
        }
        activation.setDDLTableDescriptor(td);
    }
    /* Generate the UUID for the backing index.  This will become the
		 * constraint's name, if no name was specified.
		 */
    UUIDFactory uuidFactory = dd.getUUIDFactory();
    UUID constrId = uuidFactory.createUUID();
    /* Create the index, if there's one for this constraint */
    if (indexAction != null) {
        if (indexAction.getIndexName() == null) {
            /* Set the index name */
            backingIndexName = uuidFactory.createUUID().toString();
            indexAction.setIndexName(backingIndexName);
        } else {
            backingIndexName = indexAction.getIndexName();
        }
        indexAction.setConstraintID(constrId);
        /* Create the index */
        indexAction.executeConstantAction(activation);
        /* Get the conglomerate descriptor for the backing index */
        conglomDescs = td.getConglomerateDescriptors();
        for (int index = 0; index < conglomDescs.length; index++) {
            conglomDesc = conglomDescs[index];
            /* Check for conglomerate being an index first, since
				 * name is null for heap.
				 */
            if (conglomDesc.isIndex() && backingIndexName.equals(conglomDesc.getConglomerateName())) {
                break;
            }
        }
        if (SanityManager.DEBUG) {
            SanityManager.ASSERT(conglomDesc != null, "conglomDesc is expected to be non-null after search for backing index");
            SanityManager.ASSERT(conglomDesc.isIndex(), "conglomDesc is expected to be indexable after search for backing index");
            SanityManager.ASSERT(conglomDesc.getConglomerateName().equals(backingIndexName), "conglomDesc name expected to be the same as backing index name after search for backing index");
        }
        indexId = conglomDesc.getUUID();
    }
    boolean[] defaults = new boolean[] { ConstraintDefinitionNode.DEFERRABLE_DEFAULT, ConstraintDefinitionNode.INITIALLY_DEFERRED_DEFAULT, ConstraintDefinitionNode.ENFORCED_DEFAULT };
    for (int i = 0; i < characteristics.length; i++) {
        if (characteristics[i] != defaults[i]) {
            dd.checkVersion(DataDictionary.DD_VERSION_DERBY_10_11, "DEFERRED CONSTRAINTS");
            if (constraintType == DataDictionary.NOTNULL_CONSTRAINT || !characteristics[2]) /* not enforced */
            {
                // Remove when feature DERBY-532 is completed
                if (!PropertyUtil.getSystemProperty("derby.constraintsTesting", "false").equals("true")) {
                    throw StandardException.newException(SQLState.NOT_IMPLEMENTED, "non-default constraint characteristics");
                }
            }
        }
    }
    /* Now, lets create the constraint descriptor */
    DataDescriptorGenerator ddg = dd.getDataDescriptorGenerator();
    switch(constraintType) {
        case DataDictionary.PRIMARYKEY_CONSTRAINT:
            conDesc = ddg.newPrimaryKeyConstraintDescriptor(td, constraintName, // deferable,
            characteristics[0], // initiallyDeferred,
            characteristics[1], // int[],
            genColumnPositions(td, false), constrId, indexId, sd, characteristics[2], // referenceCount
            0);
            dd.addConstraintDescriptor(conDesc, tc);
            break;
        case DataDictionary.UNIQUE_CONSTRAINT:
            conDesc = ddg.newUniqueConstraintDescriptor(td, constraintName, // deferable,
            characteristics[0], // initiallyDeferred,
            characteristics[1], // int[],
            genColumnPositions(td, false), constrId, indexId, sd, characteristics[2], // referenceCount
            0);
            dd.addConstraintDescriptor(conDesc, tc);
            break;
        case DataDictionary.CHECK_CONSTRAINT:
            conDesc = ddg.newCheckConstraintDescriptor(td, constraintName, // deferable,
            characteristics[0], // initiallyDeferred,
            characteristics[1], constrId, constraintText, // int[],
            new ReferencedColumnsDescriptorImpl(genColumnPositions(td, false)), sd, characteristics[2]);
            dd.addConstraintDescriptor(conDesc, tc);
            storeConstraintDependenciesOnPrivileges(activation, conDesc, null, providerInfo);
            break;
        case DataDictionary.FOREIGNKEY_CONSTRAINT:
            ReferencedKeyConstraintDescriptor referencedConstraint = DDUtils.locateReferencedConstraint(dd, td, constraintName, columnNames, otherConstraintInfo);
            DDUtils.validateReferentialActions(dd, td, constraintName, otherConstraintInfo, columnNames);
            conDesc = ddg.newForeignKeyConstraintDescriptor(td, constraintName, // deferable,
            characteristics[0], // initiallyDeferred,
            characteristics[1], // int[],
            genColumnPositions(td, false), constrId, indexId, sd, referencedConstraint, characteristics[2], otherConstraintInfo.getReferentialActionDeleteRule(), otherConstraintInfo.getReferentialActionUpdateRule());
            // try to create the constraint first, because it
            // is expensive to do the bulk check, find obvious
            // errors first
            dd.addConstraintDescriptor(conDesc, tc);
            /* No need to do check if we're creating a 
				 * table.
				 */
            if ((!forCreateTable) && dd.activeConstraint(conDesc)) {
                validateFKConstraint(activation, tc, dd, (ForeignKeyConstraintDescriptor) conDesc, referencedConstraint, ((CreateIndexConstantAction) indexAction).getIndexTemplateRow());
            }
            /* Create stored dependency on the referenced constraint */
            dm.addDependency(conDesc, referencedConstraint, lcc.getContextManager());
            // store constraint's dependency on REFERENCES privileges in the dependeny system
            storeConstraintDependenciesOnPrivileges(activation, conDesc, referencedConstraint.getTableId(), providerInfo);
            break;
        case DataDictionary.MODIFY_CONSTRAINT:
            throw StandardException.newException(SQLState.NOT_IMPLEMENTED, "ALTER CONSTRAINT");
        default:
            if (SanityManager.DEBUG) {
                SanityManager.THROWASSERT("contraintType (" + constraintType + ") has unexpected value");
            }
            break;
    }
    /* Create stored dependencies for each provider */
    if (providerInfo != null) {
        for (int ix = 0; ix < providerInfo.length; ix++) {
            Provider provider = null;
            /* We should always be able to find the Provider */
            provider = (Provider) providerInfo[ix].getDependableFinder().getDependable(dd, providerInfo[ix].getObjectId());
            dm.addDependency(conDesc, provider, lcc.getContextManager());
        }
    }
    /* Finally, invalidate off of the table descriptor(s)
		 * to ensure that any dependent statements get
		 * re-compiled.
		 */
    if (!forCreateTable) {
        dm.invalidateFor(td, DependencyManager.CREATE_CONSTRAINT, lcc);
    }
    if (constraintType == DataDictionary.FOREIGNKEY_CONSTRAINT) {
        if (SanityManager.DEBUG) {
            SanityManager.ASSERT(conDesc != null, "conDesc expected to be non-null");
            if (!(conDesc instanceof ForeignKeyConstraintDescriptor)) {
                SanityManager.THROWASSERT("conDesc expected to be instance of ForeignKeyConstraintDescriptor, not " + conDesc.getClass().getName());
            }
        }
        dm.invalidateFor(((ForeignKeyConstraintDescriptor) conDesc).getReferencedConstraint().getTableDescriptor(), DependencyManager.CREATE_CONSTRAINT, lcc);
    }
    this.constraintId = constrId;
}
Also used : SchemaDescriptor(org.apache.derby.iapi.sql.dictionary.SchemaDescriptor) UUIDFactory(org.apache.derby.iapi.services.uuid.UUIDFactory) DependencyManager(org.apache.derby.iapi.sql.depend.DependencyManager) ReferencedColumnsDescriptorImpl(org.apache.derby.catalog.types.ReferencedColumnsDescriptorImpl) DataDictionary(org.apache.derby.iapi.sql.dictionary.DataDictionary) ConglomerateDescriptor(org.apache.derby.iapi.sql.dictionary.ConglomerateDescriptor) ForeignKeyConstraintDescriptor(org.apache.derby.iapi.sql.dictionary.ForeignKeyConstraintDescriptor) TableDescriptor(org.apache.derby.iapi.sql.dictionary.TableDescriptor) Provider(org.apache.derby.iapi.sql.depend.Provider) DataDescriptorGenerator(org.apache.derby.iapi.sql.dictionary.DataDescriptorGenerator) LanguageConnectionContext(org.apache.derby.iapi.sql.conn.LanguageConnectionContext) ReferencedKeyConstraintDescriptor(org.apache.derby.iapi.sql.dictionary.ReferencedKeyConstraintDescriptor) ForeignKeyConstraintDescriptor(org.apache.derby.iapi.sql.dictionary.ForeignKeyConstraintDescriptor) ConstraintDescriptor(org.apache.derby.iapi.sql.dictionary.ConstraintDescriptor) ReferencedKeyConstraintDescriptor(org.apache.derby.iapi.sql.dictionary.ReferencedKeyConstraintDescriptor) UUID(org.apache.derby.catalog.UUID) TransactionController(org.apache.derby.iapi.store.access.TransactionController)

Example 4 with Provider

use of org.apache.derby.iapi.sql.depend.Provider in project derby by apache.

the class CreateTriggerConstantAction method executeConstantAction.

/**
 * This is the guts of the Execution-time logic for CREATE TRIGGER.
 *
 * @see ConstantAction#executeConstantAction
 *
 * @exception StandardException		Thrown on failure
 */
public void executeConstantAction(Activation activation) throws StandardException {
    SPSDescriptor whenspsd = null;
    SPSDescriptor actionspsd;
    LanguageConnectionContext lcc = activation.getLanguageConnectionContext();
    DataDictionary dd = lcc.getDataDictionary();
    DependencyManager dm = dd.getDependencyManager();
    TransactionController tc = lcc.getTransactionExecute();
    /*
		** Indicate that we are about to modify the data dictionary.
		** 
		** We tell the data dictionary we're done writing at the end of
		** the transaction.
		*/
    dd.startWriting(lcc);
    SchemaDescriptor triggerSd = getSchemaDescriptorForCreate(dd, activation, triggerSchemaName);
    if (spsCompSchemaId == null) {
        SchemaDescriptor def = lcc.getDefaultSchema();
        if (def.getUUID() == null) {
            // Descriptor for default schema is stale,
            // look it up in the dictionary
            def = dd.getSchemaDescriptor(def.getDescriptorName(), tc, false);
        }
        /* 
			** It is possible for spsCompSchemaId to be null.  For instance, 
			** the current schema may not have been physically created yet but 
			** it exists "virtually".  In this case, its UUID will have the 
			** value of null meaning that it is not persistent.  e.g.:   
			**
			** CONNECT 'db;create=true' user 'ernie';
			** CREATE TABLE bert.t1 (i INT);
			** CREATE TRIGGER bert.tr1 AFTER INSERT ON bert.t1 
			**    FOR EACH STATEMENT MODE DB2SQL 
			**    SELECT * FROM SYS.SYSTABLES;
			**
			** Note that in the above case, the trigger action statement have a 
			** null compilation schema.  A compilation schema with null value 
			** indicates that the trigger action statement text does not have 
			** any dependencies with the CURRENT SCHEMA.  This means:
			**
			** o  It is safe to compile this statement in any schema since 
			**    there is no dependency with the CURRENT SCHEMA. i.e.: All 
			**    relevent identifiers are qualified with a specific schema.
			**
			** o  The statement cache mechanism can utilize this piece of 
			**    information to enable better statement plan sharing across 
			**    connections in different schemas; thus, avoiding unnecessary 
			**    statement compilation.
			*/
        if (def != null)
            spsCompSchemaId = def.getUUID();
    }
    String tabName;
    if (triggerTable != null) {
        triggerTableId = triggerTable.getUUID();
        tabName = triggerTable.getName();
    } else
        tabName = "with UUID " + triggerTableId;
    /* We need to get table descriptor again.  We simply can't trust the
		 * one we got at compile time, the lock on system table was released
		 * when compile was done, and the table might well have been dropped.
		 */
    triggerTable = dd.getTableDescriptor(triggerTableId);
    if (triggerTable == null) {
        throw StandardException.newException(SQLState.LANG_TABLE_NOT_FOUND_DURING_EXECUTION, tabName);
    }
    /* Lock the table for DDL.  Otherwise during our execution, the table
		 * might be changed, even dropped.  Beetle 4269
		 */
    lockTableForDDL(tc, triggerTable.getHeapConglomerateId(), true);
    /* get triggerTable again for correctness, in case it's changed before
		 * the lock is aquired
		 */
    triggerTable = dd.getTableDescriptor(triggerTableId);
    if (triggerTable == null) {
        throw StandardException.newException(SQLState.LANG_TABLE_NOT_FOUND_DURING_EXECUTION, tabName);
    }
    /*
		** Send an invalidate on the table from which
		** the triggering event emanates.  This it
		** to make sure that DML statements on this table
		** will be recompiled.  Do this before we create
		** our trigger spses lest we invalidate them just
		** after creating them.
		*/
    dm.invalidateFor(triggerTable, DependencyManager.CREATE_TRIGGER, lcc);
    /*
		** Lets get our trigger id up front, we'll use it when
	 	** we create our spses.
		*/
    UUID tmpTriggerId = dd.getUUIDFactory().createUUID();
    actionSPSId = (actionSPSId == null) ? dd.getUUIDFactory().createUUID() : actionSPSId;
    if (whenSPSId == null && whenText != null) {
        whenSPSId = dd.getUUIDFactory().createUUID();
    }
    DataDescriptorGenerator ddg = dd.getDataDescriptorGenerator();
    /*
		** Create the trigger descriptor first so the trigger action
		** compilation can pick up the relevant trigger especially in 
		** the case of self triggering.
		*/
    TriggerDescriptor triggerd = ddg.newTriggerDescriptor(triggerSd, tmpTriggerId, triggerName, eventMask, isBefore, isRow, isEnabled, triggerTable, whenSPSId, actionSPSId, makeCreationTimestamp(dd), referencedCols, referencedColsInTriggerAction, originalActionText, referencingOld, referencingNew, oldReferencingName, newReferencingName, originalWhenText);
    dd.addDescriptor(triggerd, triggerSd, DataDictionary.SYSTRIGGERS_CATALOG_NUM, false, tc);
    /*	
		** If we have a WHEN action we create it now.
		*/
    if (whenText != null) {
        // The WHEN clause is just a search condition and not a full
        // SQL statement. Turn in into a VALUES statement.
        String whenValuesStmt = "VALUES " + whenText;
        whenspsd = createSPS(lcc, ddg, dd, tc, tmpTriggerId, triggerSd, whenSPSId, spsCompSchemaId, whenValuesStmt, true, triggerTable);
    }
    /*
		** Create the trigger action
		*/
    actionspsd = createSPS(lcc, ddg, dd, tc, tmpTriggerId, triggerSd, actionSPSId, spsCompSchemaId, actionText, false, triggerTable);
    /*
		** Make underlying spses dependent on the trigger.
		*/
    if (whenspsd != null) {
        dm.addDependency(triggerd, whenspsd, lcc.getContextManager());
    }
    dm.addDependency(triggerd, actionspsd, lcc.getContextManager());
    dm.addDependency(triggerd, triggerTable, lcc.getContextManager());
    // from the triggered statement or the WHEN clause.
    for (ProviderInfo info : providerInfo) {
        Provider provider = (Provider) info.getDependableFinder().getDependable(dd, info.getObjectId());
        dm.addDependency(triggerd, provider, lcc.getContextManager());
    }
    // store trigger's dependency on various privileges in the dependeny system
    storeViewTriggerDependenciesOnPrivileges(activation, triggerd);
}
Also used : DataDescriptorGenerator(org.apache.derby.iapi.sql.dictionary.DataDescriptorGenerator) SchemaDescriptor(org.apache.derby.iapi.sql.dictionary.SchemaDescriptor) ProviderInfo(org.apache.derby.iapi.sql.depend.ProviderInfo) LanguageConnectionContext(org.apache.derby.iapi.sql.conn.LanguageConnectionContext) DependencyManager(org.apache.derby.iapi.sql.depend.DependencyManager) DataDictionary(org.apache.derby.iapi.sql.dictionary.DataDictionary) TransactionController(org.apache.derby.iapi.store.access.TransactionController) UUID(org.apache.derby.catalog.UUID) SPSDescriptor(org.apache.derby.iapi.sql.dictionary.SPSDescriptor) TriggerDescriptor(org.apache.derby.iapi.sql.dictionary.TriggerDescriptor) Provider(org.apache.derby.iapi.sql.depend.Provider)

Example 5 with Provider

use of org.apache.derby.iapi.sql.depend.Provider in project derby by apache.

the class CreateViewConstantAction method executeConstantAction.

// INTERFACE METHODS
/**
 *	This is the guts of the Execution-time logic for CREATE VIEW.
 *
 *	@see ConstantAction#executeConstantAction
 *
 * @exception StandardException		Thrown on failure
 */
public void executeConstantAction(Activation activation) throws StandardException {
    TableDescriptor td;
    UUID toid;
    ColumnDescriptor columnDescriptor;
    ViewDescriptor vd;
    LanguageConnectionContext lcc = activation.getLanguageConnectionContext();
    DataDictionary dd = lcc.getDataDictionary();
    DependencyManager dm = dd.getDependencyManager();
    TransactionController tc = lcc.getTransactionExecute();
    /*
		** Inform the data dictionary that we are about to write to it.
		** There are several calls to data dictionary "get" methods here
		** that might be done in "read" mode in the data dictionary, but
		** it seemed safer to do this whole operation in "write" mode.
		**
		** We tell the data dictionary we're done writing at the end of
		** the transaction.
		*/
    dd.startWriting(lcc);
    SchemaDescriptor sd = DDLConstantAction.getSchemaDescriptorForCreate(dd, activation, schemaName);
    /* Create a new table descriptor.
		 * (Pass in row locking, even though meaningless for views.)
		 */
    DataDescriptorGenerator ddg = dd.getDataDescriptorGenerator();
    td = ddg.newTableDescriptor(tableName, sd, tableType, TableDescriptor.ROW_LOCK_GRANULARITY);
    dd.addDescriptor(td, sd, DataDictionary.SYSTABLES_CATALOG_NUM, false, tc);
    toid = td.getUUID();
    // for each column, stuff system.column
    ColumnDescriptor[] cdlArray = new ColumnDescriptor[columnInfo.length];
    int index = 1;
    for (int ix = 0; ix < columnInfo.length; ix++) {
        columnDescriptor = new ColumnDescriptor(columnInfo[ix].name, index++, columnInfo[ix].dataType, columnInfo[ix].defaultValue, columnInfo[ix].defaultInfo, td, (UUID) null, columnInfo[ix].autoincStart, columnInfo[ix].autoincInc, columnInfo[ix].autoincCycle);
        cdlArray[ix] = columnDescriptor;
    }
    dd.addDescriptorArray(cdlArray, td, DataDictionary.SYSCOLUMNS_CATALOG_NUM, false, tc);
    // add columns to the column descriptor list.
    ColumnDescriptorList cdl = td.getColumnDescriptorList();
    for (int i = 0; i < cdlArray.length; i++) cdl.add(cdlArray[i]);
    /* Get and add a view descriptor */
    vd = ddg.newViewDescriptor(toid, tableName, viewText, checkOption, (compSchemaId == null) ? lcc.getDefaultSchema().getUUID() : compSchemaId);
    for (int ix = 0; ix < providerInfo.length; ix++) {
        /* We should always be able to find the Provider */
        Provider provider = (Provider) providerInfo[ix].getDependableFinder().getDependable(dd, providerInfo[ix].getObjectId());
        dm.addDependency(vd, provider, lcc.getContextManager());
    }
    // store view's dependency on various privileges in the dependeny system
    storeViewTriggerDependenciesOnPrivileges(activation, vd);
    dd.addDescriptor(vd, sd, DataDictionary.SYSVIEWS_CATALOG_NUM, true, tc);
}
Also used : SchemaDescriptor(org.apache.derby.iapi.sql.dictionary.SchemaDescriptor) ColumnDescriptor(org.apache.derby.iapi.sql.dictionary.ColumnDescriptor) DependencyManager(org.apache.derby.iapi.sql.depend.DependencyManager) DataDictionary(org.apache.derby.iapi.sql.dictionary.DataDictionary) TableDescriptor(org.apache.derby.iapi.sql.dictionary.TableDescriptor) ViewDescriptor(org.apache.derby.iapi.sql.dictionary.ViewDescriptor) Provider(org.apache.derby.iapi.sql.depend.Provider) DataDescriptorGenerator(org.apache.derby.iapi.sql.dictionary.DataDescriptorGenerator) LanguageConnectionContext(org.apache.derby.iapi.sql.conn.LanguageConnectionContext) ColumnDescriptorList(org.apache.derby.iapi.sql.dictionary.ColumnDescriptorList) UUID(org.apache.derby.catalog.UUID) TransactionController(org.apache.derby.iapi.store.access.TransactionController)

Aggregations

Provider (org.apache.derby.iapi.sql.depend.Provider)10 DependencyManager (org.apache.derby.iapi.sql.depend.DependencyManager)5 ProviderInfo (org.apache.derby.iapi.sql.depend.ProviderInfo)5 ArrayList (java.util.ArrayList)4 UUID (org.apache.derby.catalog.UUID)4 LanguageConnectionContext (org.apache.derby.iapi.sql.conn.LanguageConnectionContext)4 DataDictionary (org.apache.derby.iapi.sql.dictionary.DataDictionary)4 DataDescriptorGenerator (org.apache.derby.iapi.sql.dictionary.DataDescriptorGenerator)3 SchemaDescriptor (org.apache.derby.iapi.sql.dictionary.SchemaDescriptor)3 TableDescriptor (org.apache.derby.iapi.sql.dictionary.TableDescriptor)3 TransactionController (org.apache.derby.iapi.store.access.TransactionController)3 Iterator (java.util.Iterator)2 List (java.util.List)2 ListIterator (java.util.ListIterator)2 DependableFinder (org.apache.derby.catalog.DependableFinder)2 Dependency (org.apache.derby.iapi.sql.depend.Dependency)2 ProviderList (org.apache.derby.iapi.sql.depend.ProviderList)2 ColumnDescriptor (org.apache.derby.iapi.sql.dictionary.ColumnDescriptor)2 ViewDescriptor (org.apache.derby.iapi.sql.dictionary.ViewDescriptor)2 Enumeration (java.util.Enumeration)1